STUDY ON CORROSION PROPERTIES OF ALUMINUM ALLOYS AT SLOW STRAIN RATE

J Chin Soc Corr Pro

2003, Vol. 23

Issue (1): 17-20 DOI:

Research Report

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STUDY ON CORROSION PROPERTIES OF ALUMINUM ALLOYS AT SLOW STRAIN RATE

Jianping He;Weixun Fan;Qingming Yuan

航空航天大学材料科学与技术学院

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Abstract A computing method for instantaneous corrosion rate on fresh surface of aluminum alloys was created in terms of corrosion character istic of aluminum alloys,and the effect of mechanical factors on the corrosion p roperties of LC4CS aluminum alloy has been studied with variation of strain rate .Results show that the natural corrosion potential of LC4CS aluminum alloy exhib its the negative drift trend under acting load of the constant strain rate,and t he larger the strain rate,the quicker the negative drift.In the state of galvani c couple with the aluminum alloy anodized,after the strain is above 0.04,the nat ural dissolution current will sharply increases.While strain rate is constant,th e instantaneous corrosion rate of the fresh aluminum alloy also increases with t he augmentation of strain.

Key words: fresh surface instantaneous corrosion rate aluminum alloys strain rate

Received: 06 June 2002

ZTFLH:	TG174.3
	V252.2

Corresponding Authors: Jianping He

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Jianping He; Weixun Fan; Qingming Yuan. STUDY ON CORROSION PROPERTIES OF ALUMINUM ALLOYS AT SLOW STRAIN RATE. J Chin Soc Corr Pro, 2003, 23(1): 17-20 .

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https://www.jcscp.org/EN/ OR https://www.jcscp.org/EN/Y2003/V23/I1/17

[1]HeJianping,ChenWenli,FanWeixun.ExperimentonaluminumalloyLC4CScorrosionatcracktip[J].J.ofNanjingUniversityofAeronautics&Astronautics,2000,32(3):288-293(何建平,陈文理,樊蔚勋.LC4CS铝合金裂纹尖端腐蚀行为的实验研究[J].南京航空航天大学学报,2000,32(3):288-293)
[2]LeuKW ,HelleJN .Themechanismofstresscorrosionofausteniticsteelsinhotaqueouschloridesolution[J].Corrosion,1958,14(5):249-254
[3]DeanSW .Reviewofrecentstudiesonthemechanismofstresscor rosioncrackinginausteniticstainlesssteels[A].StressCorrosion-NewApproaches[C].ASTMSTP 610,1976:308-337
[4]LiYF ,FarringtonGC ,LairdC .Cyclicresponse-electrochemicalinteractioninmono-andpolycrystallineAISI 316LstainlesssteelinH2SO4solution-I[J].ActaMetall.Mater.,1993,14(3):693-708
[5]PyleT ,RollinsV ,HowardD .Theinfluenceofcyclicplasticstrainonthetransientdissolutionbehaviorof18/8stainlesssteelin3.7MH2SO4[J].J.Electrochem.Soc.,1976,122(11):1445-1453
[6]MagninT ,CoudrenseL .CorrosionfatiguemechanismsinB .C .C .stainlesssteels[J].ActaMetall.,1987,35(9):2105-2113
[7]TimoshenkS .StrengthofMaterials-PartⅡ[M ].NewYork:VanNostrandReinholdCompany,Ltd,ThirdEdition,1978,427-428
[8]WangZhengfu,LiJin,WangJianqiu.Relationshipbetweendissolu tionrateatcracktipandcrackgrowthrateforironin3.5%NaClsolution[J].Corros.Sci.Prote.Technol.,1995,7(1):35-41(王政富,李劲,王俭秋.工业纯铁在3.5%NaCl水溶液中裂尖材料溶解速率与裂纹扩展速率的关系[J].腐蚀科学与防护技术,1995,7(1):35-41)
[9]BubarSF ,VermilyeaDA .Deformationofanodicoxidefilms[J].J .Electrochem.Soc.,1966,113:892-895
[10]WeiBaoming.ThePrincipleandApplicationofMetalCorrosion[M ].Beijing:ChemistryIndustryPress,1984,312-325(魏宝明主编.金属腐蚀理论及应用[M ].北京:化学工业出版社,1984,312-325)

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